Introduction to Cuba's Baseball Serie Nacional
Cuba's Serie Nacional de Béisbol is one of the most prestigious baseball leagues in the world, showcasing the country's rich baseball heritage and producing some of the most talented players. As we approach tomorrow's matches, anticipation builds for what promises to be an exciting day of baseball. Fans and experts alike are eager to see how the teams will perform and who will emerge victorious. This article delves into the details of tomorrow's games, offering expert betting predictions and insights into each match.
Overview of Tomorrow's Matches
Tomorrow's Serie Nacional schedule features a series of thrilling matchups that are sure to captivate baseball enthusiasts. Each game is not just a contest between two teams but a showcase of strategy, skill, and passion for the sport. Below, we provide a detailed look at the games, including team statistics, key players, and expert predictions.
Match 1: Industriales vs. Santiago de Cuba
The first game of the day pits Industriales against Santiago de Cuba. Industriales, known for their strong batting lineup, will be looking to capitalize on their home-field advantage. Santiago de Cuba, on the other hand, boasts a formidable pitching staff that has kept them competitive throughout the season.
Key Players
- Industriales:
- José Fernandez - A powerful hitter with a knack for clutch performances.
- Luis Gómez - A seasoned pitcher known for his precision and control.
- Santiago de Cuba:
- Ramón Torres - A versatile player who excels both at bat and on the mound.
- Carlos Martínez - A young talent with exceptional pitching skills.
Betting Predictions
Experts predict a closely contested game, with Industriales having a slight edge due to their home-field advantage. The predicted scoreline is Industriales 4 - Santiago de Cuba 3.
Expert Analysis
The key to victory for Industriales lies in their ability to capitalize on scoring opportunities early in the game. Santiago de Cuba will need to rely on their pitching staff to keep Industriales' hitters in check while finding ways to break through their defense.
Match 2: Cienfuegos vs. Villa Clara
The second game features Cienfuegos against Villa Clara. Cienfuegos has been performing exceptionally well this season, thanks to their balanced team composition and strategic gameplay. Villa Clara, known for their aggressive batting style, will be looking to disrupt Cienfuegos' rhythm.
Key Players
- Cienfuegos:
- Jorge Rodríguez - A consistent performer with a high batting average.
- Miguel Hernández - A pitcher with a reputation for striking out batters.
- Villa Clara:
- Fernando Sánchez - Known for his power hitting and ability to change the game.
- Rodrigo Jiménez - A reliable pitcher who excels under pressure.
Betting Predictions
Analysts suggest that Cienfuegos has a strong chance of winning this match, with a predicted scoreline of Cienfuegos 5 - Villa Clara 4.
Expert Analysis
Cienfuegos' success will depend on their ability to execute their game plan while adapting to any changes Villa Clara brings to the field. Villa Clara will need to leverage their aggressive batting strategy to put pressure on Cienfuegos' pitchers.
Match 3: Pinar del Río vs. Matanzas
In the third matchup, Pinar del Río faces off against Matanzas. Pinar del Río has been known for their defensive prowess and disciplined gameplay. Matanzas, however, has been gaining momentum with their dynamic offense and strategic plays.
Key Players
- Pinar del Río:
- Luis Alfonso García - A key player known for his leadership and defensive skills.
- Juan Carlos Valdés - A pitcher who excels in maintaining low ERA (Earned Run Average).
- Matanzas:
- Alejandro Pérez - An offensive powerhouse with a knack for timely hits.
- Rodolfo Morales - A strategic pitcher who thrives in high-pressure situations.
Betting Predictions
This game is expected to be highly competitive, with experts predicting a close finish. The forecasted scoreline is Pinar del Río 4 - Matanzas 3.
Expert Analysis
Pinar del Río will need to focus on maintaining their defensive strength while finding opportunities to score runs. Matanzas will aim to exploit any weaknesses in Pinar del Río's defense with their aggressive offensive strategy.
Trends and Statistics
<|repo_name|>ctyran/oss<|file_sep|>/iot/device-mqtt/device-mqtt.h
// Copyright (c) Microsoft Corporation.
// Licensed under the MIT license.
#ifndef __DEVICE_MQTT_H__
#define __DEVICE_MQTT_H__
#include "azure_c_shared_utility/tickcounter.h"
#include "azure_c_shared_utility/threadapi.h"
#include "azure_c_shared_utility/xio.h"
#include "azure_c_shared_utility/xlogging.h"
#include "azure_c_shared_utility/sastlsio.h"
#include "azure_uamqp_c/sastlsio.h"
#include "azure_uamqp_c/message.h"
#ifdef __cplusplus
extern "C" {
#endif
typedef struct device_mqtt_context_s device_mqtt_context_t;
typedef void (*device_mqtt_publish_cb)(device_mqtt_context_t*, char* topicName);
typedef void (*device_mqtt_message_cb)(device_mqtt_context_t*, char* topicName);
struct device_mqtt_context_s
{
const char* iotHubHostName;
const char* deviceId;
const char* sharedAccessKey;
const char* sharedAccessKeyName;
unsigned int protocol;
unsigned int protocolVersion;
bool enableSsl;
char* caCertificatePath;
int qosLevel;
bool publishEnabled;
device_mqtt_publish_cb publishCallback;
bool messageEnabled;
device_mqtt_message_cb messageCallback;
// thread
thread_t threadHandle;
void* threadData;
// xio
xio_sastls_t* xioHandle;
// amqp
uamqp_sastls_t* saslHandle;
// mqtt client
uamqp_mqtt_client_t* mqttClientHandle;
};
#define DEVICE_MQTT_SUCCESS (0)
#define DEVICE_MQTT_ERROR_FAIL (-1)
#define DEVICE_MQTT_ERROR_INVALID_PARAMETER (-2)
#define DEVICE_MQTT_ERROR_BAD_FORMAT (-3)
#define DEVICE_MQTT_ERROR_BAD_JSON (-4)
#define DEVICE_MQTT_ERROR_AMQP (-5)
#define DEVICE_MQTT_ERROR_INVALID_PROTOCOL_VERSION (-6)
DEVICE_MQTT_API int device_mqtt_init(device_mqtt_context_t** context);
DEVICE_MQTT_API void device_mqtt_deinit(device_mqtt_context_t** context);
DEVICE_MQTT_API int device_mqtt_set_iot_hub_host_name(device_mqtt_context_t* context,
const char* iotHubHostName);
DEVICE_MQTT_API int device_mqtt_set_device_id(device_mqtt_context_t* context,
const char* deviceId);
DEVICE_MQTT_API int device_mqtt_set_shared_access_key(device_mqtt_context_t* context,
const char* sharedAccessKey);
DEVICE_MQTT_API int device_mqtt_set_shared_access_key_name(device_mqtt_context_t* context,
const char* sharedAccessKeyName);
DEVICE_MQTT_API int device_mqtt_set_protocol(device_mqtt_context_t* context,
unsigned int protocol);
DEVICE_MQTT_API int device_mqtt_set_protocol_version(device_mqtt_context_t* context,
unsigned int protocolVersion);
DEVICE_MQTT_API int device_mqtt_set_enable_ssl(device_mqtt_context_t* context,
bool enableSsl);
DEVICE_MQTT_API int device_mqtt_set_ca_certificate_path(device_mqtt_context_t* context,
const char* caCertificatePath);
DEVICE_MQTT_API int device_mqtt_set_qos_level(device_mqtt_context_t* context,
unsigned int qosLevel);
DEVICE_MQTT_API int device_mqtt_enable_publish_callback(device_mqtt_context_t* context,
bool enablePublishCallback);
DEVICE_MQTT_API int device_mqtt_enable_message_callback(device_mqtt_context_t* context,
bool enableMessageCallback);
DEVICE_MQTT_API int device_mqtt_start(device_mqtt_context_t *context);
DEVICE_MQTT_API void device_mqtt_stop(device_mqtt_context_t *context);
#ifdef __cplusplus
}
#endif
#endif /* __DEVICE_MQTT_H__ */<|repo_name|>ctyran/oss<|file_sep/context.c
// Copyright (c) Microsoft Corporation.
// Licensed under the MIT license.
#include "device-mqtt.h"
static void trace_log(az_trace_level level, const char *function_name, const char *message)
{
if (level == AZ_TRACE_INFO)
{
az_trace_info(message);
}
else if (level == AZ_TRACE_WARNING)
{
az_trace_warning(message);
}
else if (level == AZ_TRACE_ERROR)
{
az_trace_error(message);
}
}
static void xio_create(
xio_sastls** xio_handle,
const char *hostname,
int port,
const char *ca_certificate_path)
{
if ((xio_handle == NULL) || (hostname == NULL) || (ca_certificate_path == NULL))
{
trace_log(AZ_TRACE_ERROR, __FUNCTION__, "Invalid parameter.");
return;
}
int result = xio_sastls_create(xio_handle,
hostname,
port,
ca_certificate_path);
if (result != AZ_OK)
{
trace_log(AZ_TRACE_ERROR, __FUNCTION__, "Failed creating SASL TLS IO handle.");
}
}
static void xio_destroy(xio_sastls** xio_handle)
{
if (xio_handle == NULL)
{
return;
}
xio_close(*xio_handle);
xio_destroy(xio_handle);
}
static void sasl_create(uamqp_sastls** sasl_handle,
xio_sastls *xio_handle,
const char *shared_access_key_name,
const char *shared_access_key)
{
if ((sasl_handle == NULL) || (xio_handle == NULL) ||
(shared_access_key_name == NULL) || (shared_access_key == NULL))
{
trace_log(AZ_TRACE_ERROR, __FUNCTION__, "Invalid parameter.");
return;
}
int result = uamqp_sastls_create(sasl_handle,
xio_handle,
shared_access_key_name,
shared_access_key);
if (result != AZ_OK)
{
trace_log(AZ_TRACE_ERROR, __FUNCTION__, "Failed creating SASL TLS handle.");
}
}
static void sasl_destroy(uamqp_sastls** sasl_handle)
{
if (sasl_handle == NULL)
{
return;
}
uamqp_sastls_destroy(sasl_handle);
}
static void mqtt_client_create(
uamqp_mqtt_client** mqtt_client_handle,
uamqp_sastls *sasl_handle,
unsigned int protocol_version)
{
if ((mqtt_client_handle == NULL) || (sasl_handle == NULL))
{
trace_log(AZ_TRACE_ERROR, __FUNCTION__, "Invalid parameter.");
return;
}
int result = uamqp_mqtt_client_create(mqtt_client_handle,
sasl_handle,
protocol_version);
if (result != AZ_OK)
{
trace_log(AZ_TRACE_ERROR, __FUNCTION__, "Failed creating MQTT client handle.");
}
}
static void mqtt_client_destroy(uamqp_mqtt_client** mqtt_client_handle)
{
if (mqtt_client_handle == NULL)
{
return;
}
uamqp_mqtt_client_destroy(mqtt_client_handle);
}
static void mqtt_subscribe(uamqp_mqtt_client *mqtt_client_handle)
{
if (mqtt_client_handle == NULL)
{
return;
}
int result = uamqp_amqp_request(mqtt_client_handle->connection);
if ((result != AZ_OK) || (!mqtt_client_handle->connection->open_sender))
{
#if defined(USE_CONSOLE_IO)
#if defined(USE_SYSTEM_LOGGING)
#else /* USE_CONSOLE_IO && !USE_SYSTEM_LOGGING */
#endif /* USE_CONSOLE_IO && !USE_SYSTEM_LOGGING */
#endif /* USE_CONSOLE_IO */
#if defined(USE_SYSTEM_LOGGING)
#else /* !USE_SYSTEM_LOGGING */
#endif /* !USE_SYSTEM_LOGGING */
#if defined(USE_CONSOLE_IO)
#else /* !USE_CONSOLE_IO */
#endif /* !USE_CONSOLE_IO */
#if defined(USE_SYSTEM_LOGGING)
#else /* !USE_SYSTEM_LOGGING */
#endif /* !USE_SYSTEM_LOGGING */
#if defined(USE_CONSOLE_IO)
#else /* !USE_CONSOLE_IO */
#endif /* !USE_CONSOLE_IO */
return;
}
static void mqtt_publish(uamqp_message **message_out,
uamqp_amqp_bytes binary_data_out,
uamqp_amqp_value binary_data_out_len_out,
uamqp_amqp_value binary_data_in_len_inout,
uamqp_message **message_inout)
{
int result = uamqp_amqp_publish(message_inout->body_section->message_annotations_inout.data.message_annotations_inout.size + sizeof(amqpvalue_descriptor),
message_inout->body_section->message_annotations_inout.data.message_annotations_inout.data);
result += uamqp_amqp_publish(binary_data_in_len_inout->data.integer.bytes + sizeof(amqpvalue_descriptor),
binary_data_in_len_inout->data.integer.bytes);
result += uamqp_amqp_publish(binary_data_out.bytes + sizeof(amqpvalue_descriptor),
binary_data_out.bytes);
result += uamqp_amqp_publish((uamqp_amqp_bytes)binary_data_out.bytes + sizeof(amqpvalue_descriptor),
binary_data_out.bytes);
result += uamqp_amqp_publish((uamqp_amqp_bytes)&binary_data_out_len_out + sizeof(amqpvalue_descriptor),
sizeof(uamqp_amqp_value));
result += uamqp_amqp_publish((uamqp_amqp_bytes)&binary_data_in_len_inout + sizeof(amqpvalue_descriptor),
sizeof(uamqp_amqp_value));
result += uamqp_amqp_send_application_message(message_inout->body_section->message_annotations_inout.data.message_annotations_inout.data +
binary_data_in_len_inout->data.integer.bytes +
binary_data_out.bytes +
binary_data_out.bytes +
sizeof(amqpvalue_descriptor) +
sizeof(uamqp_amqp_value) +
sizeof(uamqp_amqp_value));
message_out->body_section = message_inout->body_section;
message_out->header_section = message_inout->header_section;
message_out->footer_section = message_inout->footer_section;
message_out->delivery_annotations = message_inout->delivery_annotations;
message_out->message_annotations = message_inout->message_annotations;
message_out->properties = message_inout->properties;
message_out->application_properties = message_inout->application_properties;
message_out->annotations = message_inout->annotations;
message_out->body_section = message_inout->body_section;
free(message_inout);
return;
}
static void mqtt_subscribe_callback(void *userContextCallback_,
uamqpcbs_connection_on_connection_opened_callback_args *on_connection_opened_args_,
uamqpcbs_connection_on_connection_closed_callback_args *on_connection_closed_args_)
{
int result =
#if defined(USE_SYSTEM_LOGGING)
#else /* !USE_SYSTEM_LOGGING */
#endif /* !USE_SYSTEM_LOGGING */
#if defined(USE_CONSOLE_IO)
#else /* !USE_CONSOLE_IO */
#endif /* !USE_CONSOLE_IO */
#if defined(USE_SYSTEM_LOGGING)
#else /* !USE_SYSTEM_LOGGING */
#endif /* !USE_SYSTEM_LOGGING */
#if defined(USE_CONSOLE_IO)
#else /* !USE_CONSOLE_IO */
#endif /* !USE_CONSOLE_IO */
#if defined(USE_SYSTEM_LOGGING)
#else /* !USE_SYSTEM_LOGGING */
#endif /* !USE_SYSTEM_LOGGING */
#if defined(USAGE_CONTEXT_INFO)
#else
#endif
return;
}
static void mqtt_message_callback(void *userContextCallback_,
uamqpcbs_on_message_received_callback_args *on_message_received_args_)
{
int result =
#if defined(USAGE_CONTEXT_INFO)
#else
#endif
return;
}
static void mqtt_publish_callback(void *userContextCallback_,
uamqpcbs_on_message_accepted_callback_args *on_message_accepted_args_)
{
int result =
#if defined(USAGE_CONTEXT_INFO)
#else
#endif
return;
}
static unsigned long long get_current_utc_time()
{
tickcounter_ms_t msTime = tickcounter_get_current_ms_time();
tickcounter_100ns_time_ms_to_utc_time(&msTime);
tickcounter_100ns_time_utc_time_to_ull(&msTime);
return msTime.time_100ns_since_epoch / ULLONG_MAX / TEN_BILLION / TEN_BILLIONULL *
TEN_BILLIONULL + msTime.time_100ns_since_epoch % ULLONG_MAX / TEN_BILLIONULL
